Our Body
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How does our body work? Anatomy, physiology, and everyday habits from a scientific perspective. No magic, just facts.
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📈 Analytical overview of Telegram channel Our Body
Channel Our Body (@our_body_us) in the English language segment is an active participant. Currently, the community unites 10 473 subscribers, ranking 2 627 in the Medicine category.
📊 Audience metrics and dynamics
Since its creation on невідомо, the project has demonstrated rapid growth, gathering an audience of 10 473 subscribers.
According to the latest data from 14 September, 2026, the channel demonstrates stable activity. Although there has been a change in the number of participants by 5 332 over the last 30 days and by 109 over the last 24 hours, overall reach remains high.
- Verification status: Not verified
- Engagement rate (ER): The average audience engagement rate is 75.24%. Within the first 24 hours after publication, content typically collects 21.59% reactions from the total number of subscribers.
- Post reach: On average, each post receives 7 816 views. Within the first day, a publication typically gains 2 243 views.
- Reactions and interaction: The audience actively supports content: the average number of reactions per post is 93.
- Thematic interests: Content is focused on key topics such as cell, onion, crystal, element, demodex.
📝 Description and content policy
The author describes the resource as a platform for expressing subjective opinions:
“How does our body work? Anatomy, physiology, and everyday habits from a scientific perspective. No magic, just facts.”
Thanks to the high frequency of updates (latest data received on 15 September, 2026), the channel maintains relevance and a high level of publication reach. Analytics show that the audience actively interacts with content, making it an important point of influence in the Medicine category.
10 473
Subscribers
+10924 hours
+8407 days
+5 33230 days
Posts Archive
10 473
Wild-caught fish carry up to 90% parasite rates, and farmed ones aren’t much better.
The main culprit is Anisakis, a worm that can burrow into your gut wall and trigger:
→ Random allergies
→ Bloating that won’t budge
→ Autoimmune-like flares that don’t make sense to even the best doctors
Please just cook your food. Times have evolved. We now have fire 😉
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10 473
the electric Eels can generate 600 volts ... with no battery
[7/30, *1:13 PM] Taimoor Khan Nasir: What happens when we combine the power of artificial intelligence with the infinite frontier of space?
From autonomous rovers on Mars to predictive models analyzing exoplanets, AI is revolutionizing space exploration. Machines now help us sift through unimaginable amounts of cosmic data, spot anomalies, navigate unknown terrains, and make split-second decisions millions of miles away from Earth.
This isn’t science fiction—it’s the foundation of our interplanetary future. As AI and robotics evolve, so too does our ability to expand human presence beyond Earth, responsibly and intelligently.
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10 473
Small World in Motion Competition!! I’ve been so excited to share these with you. It was so fun (but so challenging!!!) to narrow these down from 370 entries from over 40 countries.
All videos courtesy of Nikon Small World. Captions, in order of appearance:
🔬Mitosis waves in the embryo or a fruit fly by Dr. Bruno Vellutini
🔬Water droplets evaporating from the wing scales of a peacock butterfly by Jay McClellan
🔬An oligodendrocyte precursor cell in the spinal cord of a zebrafish
🔬Friction transition in a microtubule-based active liquid crystal
🔬A baby tardigrade riding a nematode
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10 473
The beautiful nano details of our world
When photographed under a 3D microscope, grains of sand appear like colorful pieces of candy and the stamens in a flower become like fantastical spires at an amusement park. Photographer and biomedical researcher Gary Greenberg reveals the thrilling details of the micro world.
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10 473
This is a pond water sample from my favorite sampling spot! The diversity and colors in the samples for this spot is incredible. Would you like a full narrated video about the organisms in this sample? 🔬
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10 473
What you’re seeing here may look simple… 👇
But for many people trying to build a family through IVF, this step is everything. 🧬
In this microscope image, we likely see mature eggs (oocytes) with motile sperm swimming around them — a possible glimpse into the early phase of fertilization during IVF.
This process may be part of conventional IVF, where eggs and sperm are placed together in a dish, allowing fertilization to potentially occur naturally in the lab. It’s different from ICSI (intracytoplasmic sperm injection), where a single sperm is directly injected into the egg.
Why does this matter?
Because behind each of these cells is a story — of strength, heartbreak, and hope. And at GFG, we honor that journey.
We know this path isn’t easy. But we’re here to walk it with you — with science, with compassion, and with unwavering support.
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10 473
What does a gold crescent platy fish look like after grossing, tissue processing, embedding and cutting? Watch to the end to find out. Stained with H&E and processed on Milestone equipment.
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🔬 Pork liver under the microscope 🐖
🧫 look at those fascinating liver cells up close!
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10 473
This scientist creates breathtaking visual art using chemistry. He combines various chemical elements and reactions to produce mesmerizing visuals that unfold within a single drop of water.
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10 473
Yes, those green things inside the cells are chloroplasts. As you can see in this video, exposing plant cells to salt water will dehydrate the cells, therefore watering plants with salt water will kill them.
This is an example of osmosis in action! Putting the plant leaf in distilled water means exposing the plant cells to a hypotonic solution. By osmosis, water molecules move from higher concentration to lower concentration. Thus, water moves from the outside to the inside of the cells. This causes the plant cells to swell, but the cell wall prevents them from bursting, therefore the cells will become as full of water as they can be. If they didn’t have a cell wall, the cells would swell so much that they would burst (this is what happens to animal cells when they are placed in distilled water).
In the second part of the video, the plant cells are exposed to a salt solution (hypertonic solution). Once again, by osmosis water molecules move from higher concentration to lower concentration. But in this case, the inside of the cell has a higher concentration of water molecules than the outside of the cell hypertonic solution. Thus, water moves from the inside of the cells towards the outside of the cells making the cells shrink. The cell walls are rigid so they are not affected by this, but you can see how the cell becomes smaller and smaller as it loses its water content by osmosis.
By the way, some plants (e.g. plants living near the ocean shoreline…) have special adaptations to get rid of the salt and maintain osmotic balance. But the rest of the plants will eventually die if you water them with salt water.
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10 473
When you look closely at an iPhone’s 5nm chip, you’re seeing an incredibly small but powerful piece of technology.
This chip is made using a special process called Extreme Ultraviolet (EUV) lithography, which uses high-tech lasers to carve tiny circuits onto a silicon wafer. These circuits are made up of billions of tiny switches, called transistors, that control how the chip processes information.
Since the transistors are so small—just a few nanometers wide (a nanometer is about 100,000 times thinner than a human hair)—more of them can fit on the chip. This makes the phone faster, more energy-efficient, and less likely to overheat.
The 5nm technology is essential for modern advancements like artificial intelligence (AI), 5G networks, and powerful processors. However, making these chips requires extreme precision, rare materials, and some of the most advanced manufacturing machines in the world.
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10 473
Flower petals, though delicate and soft, are cellular powerhouses packed with specialized cells that do more than just look pretty. To me, the most amazing thing about petals is their epidermal cells (portrayed in the video), which assemble together perfectly like tiles protecting the surface of the petal.
These petal epidermal cells often contain pigments like anthocyanins, which give petals their vivid colors, but they also act like microscopic lenses, focusing sunlight into the petal tissue to enhance color vibrancy and attract pollinators.
Nature is amazing!
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